JP4685560B2 - Rotary blade polishing equipment - Google Patents

Rotary blade polishing equipment Download PDF

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JP4685560B2
JP4685560B2 JP2005263240A JP2005263240A JP4685560B2 JP 4685560 B2 JP4685560 B2 JP 4685560B2 JP 2005263240 A JP2005263240 A JP 2005263240A JP 2005263240 A JP2005263240 A JP 2005263240A JP 4685560 B2 JP4685560 B2 JP 4685560B2
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rotary blade
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JP2007075909A (en
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真二 荒川
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Hitachi Maxell Energy Ltd
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本発明は、回転刃の研磨装置に関し、詳しくは、例えば厚さの薄いシート状の被裁断物を裁断する回転軸方向に複数重ねられた円形の回転刃の刃先に面取りを施す回転刃の研磨装置に関するものである。   The present invention relates to a rotary blade polishing apparatus, and more specifically, for example, polishing a rotary blade that chamfers the blade tips of a plurality of circular rotary blades stacked in the direction of the rotation axis for cutting a thin sheet-shaped workpiece. It relates to the device.

幅広のシート状のウエブを一定幅の幅狭の複数のテープに裁断加工するスリッタ装置が種々の製品の製造に用いられる。その中でも、ポリエステルなどのブラスチック支持体上の一方の主面に少なくとも磁性層を設け、他方の面にバック層を設けた磁気シートを一定幅に裁断し、磁気テープを製造する工程において使用するスリッタ装置においては、その裁断幅、裁断面の形状等に格段の精度が求められる。   A slitter apparatus that cuts a wide sheet-like web into a plurality of narrow tapes having a constant width is used for manufacturing various products. Among them, a magnetic sheet having at least a magnetic layer on one main surface on a plastic support such as polyester and having a back layer on the other surface is cut to a certain width and used in a process of manufacturing a magnetic tape. In the slitter device, a remarkably high accuracy is required for the cutting width, the shape of the cut surface, and the like.

そのため、従来より、スリッタ装置の刃物にはさまざまな工夫がなされてきた。例えば、特許文献1では、丸刃(回転刃)の外周側面部に特定の面取り加工を施すことにより、刃物の切れ味が向上することを開示している。また、回転刃の前記面取り加工の方法についても提案されている(例えば、特許文献2、3)。   For this reason, various ideas have been made for the cutter of the slitter device. For example, Patent Document 1 discloses that the sharpness of the blade is improved by performing a specific chamfering process on the outer peripheral side surface portion of the round blade (rotating blade). Moreover, the method of the said chamfering process of a rotary blade is also proposed (for example, patent document 2, 3).

特公平7−121515号公報Japanese Examined Patent Publication No. 7-121515 特開2003−94298号公報JP 2003-94298 A 特開2003−127050号公報JP 2003-127050 A

しかし、この回転刃の面取り加工は回転刃の半径方向で数μm〜10数μm、厚さ方向で数μmのオーダーであり、極めて高精度な技術を要し、刃物を1枚ずつ調整、測定を繰り返しながら研磨を行う必要があり、多数の刃物を加工するのに長時間を要し、作業効率が悪いためコストが高くなる。前述の従来技術(特許文献2、3)では、回転刃の振れ、位置を吸収するために面取り加工を行う研磨体を付勢しながら回転刃に押し当てて研磨することが開示されているが、多数の回転刃を順次研磨する際の研磨開始位置は、工具顕微鏡で観察しながら設定しており、磁気テープ用のスリッタ装置は、通常数十枚以上の回転刃から構成されるため、作業効率、加工コストの改善に十分とはいえなかった。   However, the chamfering of this rotary blade is on the order of several μm to 10 and several μm in the radial direction of the rotary blade and several μm in the thickness direction, requiring extremely high precision technology, and adjusting and measuring the blades one by one. It is necessary to perform polishing while repeating the above, and it takes a long time to process a large number of blades, resulting in poor work efficiency and high cost. In the above-described conventional technologies (Patent Documents 2 and 3), it is disclosed that polishing is performed by pressing a polishing body that performs chamfering processing against the rotating blade while absorbing the vibration and position of the rotating blade. The polishing start position when polishing a large number of rotary blades sequentially is set while observing with a tool microscope, and the slitter device for magnetic tape is usually composed of several tens or more rotary blades. It was not enough to improve efficiency and processing cost.

研磨作業を連続化、自動化しようとすると、スリッタ装置の刃物回転軸に組み付けられた複数の回転刃に対し、研磨装置の研磨部が複数の軸方向に移動可能になっており、研磨部が、順次、複数の刃物に接触し研磨してゆく連続自動研磨装置が考えられる。例えば、その研磨部の各軸方向への移動量、研磨時間等をプログラミングし連続的な研磨動作を行わせることが考えられるが、数値でプログラミング制御するだけでは、回転刃の組み付け精度のバラツキがあり、回転刃の外周側面の研磨を前述の精度で行うことは極めて困難である。なぜならば、回転刃は一定間隔(それぞれの間隔精度は1μm以下)で組みつけられているとはいえ、図4に示すように刃物は刃物6とその刃物ホルダー7とが数十枚重ねられているので刃物軸の両端の刃物間隔を、数μm以下の誤差に抑えることは困難であるからである。   When trying to continue and automate the polishing operation, the polishing unit of the polishing apparatus can be moved in a plurality of axial directions with respect to the plurality of rotary blades assembled to the blade rotation shaft of the slitter device. A continuous automatic polishing apparatus that sequentially contacts and polishes a plurality of blades can be considered. For example, it is conceivable to program the amount of movement of the polishing part in each axial direction, the polishing time, etc. to perform continuous polishing operation, but only by programming control with numerical values will cause variation in the assembly accuracy of the rotary blade. In addition, it is extremely difficult to polish the outer peripheral side surface of the rotary blade with the aforementioned accuracy. This is because although the rotary blades are assembled at regular intervals (each interval accuracy is 1 μm or less), as shown in FIG. 4, the blade is composed of several tens of blades 6 and its blade holder 7. This is because it is difficult to suppress the distance between the blades at both ends of the blade shaft to an error of several μm or less.

本発明の課題は、上記問題点に照らし、回転刃を高精度に、かつ連続的に研磨できる研磨装置を提供することにある。   In view of the above problems, an object of the present invention is to provide a polishing apparatus capable of continuously polishing a rotary blade with high accuracy.

本発明者らは、上記目的を達成するために鋭意検討した結果、研磨装置を下記の構成とすれば、比較的簡便でありながら、良好な研磨精度が得られることを見いだし、本発明をなすに至った。   As a result of intensive studies to achieve the above object, the present inventors have found that if the polishing apparatus has the following configuration, it is relatively simple and good polishing accuracy can be obtained. It came to.

すなわち、回転軸と該回転軸の同軸上、軸方向に一定の間隔で保持された複数の回転刃と、
前記回転刃と接触し回転刃を研磨する研磨手段と該研磨手段を駆動する駆動手段とからなる研磨部と、
前記研磨部を複数の軸方向に移動可能な複数の移動台を備える移動部と、からなる回転刃の研磨装置において、前記研磨部が前記回転刃に接近移動、接触し回転刃を研磨する際に移動する第1移動台上に、該第1移動台の移動方向に移動自在で、前記回転刃に接近する方向に弾性体により付勢された可動台が配設され、該可動台上に前記研磨部が配設されており、前記第1移動台が移動し研磨手段が回転刃に接触後さらに該第1移動台が移動した移動量が前記可動台の後退移動量になるように構成されており、該後退移動量を測定する測定手段が設けられていることを特徴とする。
That is, a plurality of rotary blades held at regular intervals in the axial direction on the same axis as the rotary shaft.
A polishing section comprising a polishing means for contacting the rotary blade and polishing the rotary blade, and a driving means for driving the polishing means;
In a rotary blade polishing apparatus comprising: a moving unit including a plurality of moving platforms capable of moving the polishing unit in a plurality of axial directions; and when the polishing unit moves and contacts the rotary blade to polish the rotary blade On the first movable table that moves, a movable table that is movable in the moving direction of the first movable table and is urged by an elastic body in a direction approaching the rotary blade is disposed. The polishing unit is disposed, and the amount of movement of the first moving table after the first moving table moves and the polishing means contacts the rotary blade further becomes the amount of backward movement of the movable table. And measuring means for measuring the backward movement amount is provided.

さらに、前記回転軸の回転、移動部の各移動台の動作を連続的に自動制御するとともに、複数の回転刃に対する研磨を、前記後退移動量を制御して研磨することにより、複数の回転刃を精度よく連続的に研磨できる。   Further, the rotation of the rotating shaft and the operation of each moving table of the moving unit are continuously and automatically controlled, and polishing with respect to a plurality of rotating blades is performed by controlling the backward movement amount to thereby polish a plurality of rotating blades. Can be polished continuously with high accuracy.

回転軸の同軸上、軸方向に一定の間隔で保持された複数の回転刃の外周側面部を面取り加工するにあたって、研磨手段を有する研磨部を回転刃に軸方向に接近移動させる移動台上に、回転刃に接近する方向に弾性体により付勢された可動台が配設されているので、研磨手段が回転刃に接触してからの移動台の移動量が可動台の後退量として捉えられ、この後退量を測定手段により評価し、一定量に制御することにより、回転軸上の回転刃の軸方向位置が設計値から微妙にずれていても研磨手段の回転刃に対する、オーバラップ量を一定量に制御できるので、複数の回転刃の研磨量を高精度に所定量に制御することができる。   When chamfering the outer peripheral side surfaces of a plurality of rotary blades held on the same axis in the axial direction on the same axis as the rotary shaft, on the moving table that moves the polishing portion having the polishing means closer to the rotary blade in the axial direction. Since the movable base urged by the elastic body in the direction approaching the rotary blade is disposed, the amount of movement of the movable base after the polishing means comes into contact with the rotary blade is regarded as the retreat amount of the movable base. The amount of overlap with respect to the rotating blade of the polishing means can be reduced even if the axial position of the rotating blade on the rotating shaft is slightly deviated from the design value by evaluating the retreat amount by the measuring means and controlling it to a constant amount. Since it can be controlled to a certain amount, the polishing amount of the plurality of rotary blades can be controlled to a predetermined amount with high accuracy.

以下に、図面を参照して説明する。   Hereinafter, description will be given with reference to the drawings.

図1は、本発明の一例の研磨装置の全体の構成を示す斜視図である。本例の研磨装置17は、回転軸5と、回転軸5の同軸上に軸方向に一定の間隔で保持された複数の回転刃6と、前記回転軸5と平行に移動可能な第1移動台1と、第1移動台1上に配設され、前記回転軸5に対して直角で、前期回転刃に接近、離遠する方向に移動可能な第2移動台2と、第2移動台2上に配設され、前記第2移動台に垂直な回転軸方向に首振り可能な回転台4と、回転台4上に配設される研磨部10とからなる。   FIG. 1 is a perspective view showing the overall configuration of a polishing apparatus according to an example of the present invention. The polishing apparatus 17 of this example includes a rotary shaft 5, a plurality of rotary blades 6 held on the same axis in the axial direction on the same axis as the rotary shaft 5, and a first movement that can move parallel to the rotary shaft 5. A first moving table 1, a second moving table 2 disposed on the first moving table 1 and perpendicular to the rotating shaft 5 and movable in a direction approaching and moving away from the rotary blade in the previous period; and a second moving table 2 and a polishing table 10 disposed on the turntable 4 and a turntable 4 that can swing in the direction of the rotation axis perpendicular to the second moving table.

図3は、前記研磨部10の構成をさらに詳細に示す詳細図である。研磨部10は、回転刃6と接触し、これを研磨する研磨手段である研磨板14とこれを駆動する駆動手段であるモータ16とが可動台15に配設され、可動台15は研磨板の回転軸方向に移動自在で、直動ガイド11を介して研磨部台座3と連結され、圧縮ばね12(弾性体)により図左方向に付勢されている。このため、第1移動台1の移動により研磨板14が回転刃6に接近し、接触した後のさらなる第1移動台1の移動の際には、可動台が該第1移動台1の移動量に伴い後退移動するようになっている。該後退移動量は移動量を測定する手段であるリニアゲージ13により測定されリニアゲージの表示・制御部13aにて表示、制御される。   FIG. 3 is a detailed view showing the configuration of the polishing unit 10 in more detail. In the polishing unit 10, a polishing plate 14 that is a polishing unit that contacts the rotary blade 6 and polishes it, and a motor 16 that is a driving unit that drives the polishing plate 10 are disposed on the movable table 15. It is movable in the direction of the rotation axis, is connected to the polishing part base 3 via a linear motion guide 11, and is urged in the left direction by a compression spring 12 (elastic body). For this reason, when the polishing plate 14 approaches the rotary blade 6 due to the movement of the first moving table 1 and further moves the first moving table 1 after the contact, the movable table moves the first moving table 1. It moves backward with the amount. The backward movement amount is measured by a linear gauge 13 which is a means for measuring the movement amount, and is displayed and controlled by a display / control unit 13a of the linear gauge.

本例では、研磨部を研磨手段である回転する研磨板14とこれを駆動する駆動手段であるモータ16にて例示したが、研磨手段はこれ以外にも例えば研磨シートを走行させながら回転刃6に接触させるなど、回転刃を研磨することが可能な従来公知の研磨方法を用いることができる。   In this example, the polishing unit is exemplified by the rotating polishing plate 14 that is a polishing means and the motor 16 that is a driving means that drives the polishing plate. A conventionally known polishing method capable of polishing the rotary blade, such as contacting with the substrate, can be used.

図2は、本発明の一例の研磨装置の研磨部の一例の動作順序を示す説明図である。この図に基づいて、本例の研磨装置の動作を説明する。   FIG. 2 is an explanatory diagram showing an operation sequence of an example of a polishing unit of an example polishing apparatus according to the present invention. Based on this figure, the operation of the polishing apparatus of this example will be described.

回転台4により回転軸5に対して所定の角度θ首振り設定された研磨部は、回転軸5に対して所定の位置(開始位置)から、(1)第2移動台2の移動動作により、回転軸と直角の方向に軸に近づき所定量移動して研磨板14の外周部が回転している各回転刃の刃先6a間の、やや回転軸寄り位置(研磨待機位置)まで移動する、ついで(2)第1移動台1の移動動作により回転軸と平行な方向、回転刃の刃先6aに近づく方向へ移動し、研磨板14は前記回転刃の刃先6aと接触する。研磨板14が配設されている可動台15は直動ガイド11を介して研磨部台座3と連結され、圧縮ばね12(弾性体)により回転刃の刃先6aの方向に付勢されているため、接触後のさらなる第1移動台1の移動量は、研磨部台座3上での可動台15の後退移動量に対応量として表れ、該後退移動量は、リニアゲージ13により検出される。この検出された移動量は、回転刃6と研磨板14のオーバラップ量であり、検出移動量が所定の数値に至った位置(研磨位置)で第1移動台1の移動動作を止めることで、オーバラップ量を所定量に制御することができる。モータ16により回転している研磨板14を所定時間回転刃6と接触させた後、(3)第1移動台1の移動動作により研磨板14は回転刃6と分離され所定量移動して研磨部10は前記研磨待機位置まで戻る。前記オーバラップ量と研磨板14と回転刃6との接触時間とを一定にすることにより、研磨量を所定量に制御することができる。その後、(4)第2移動台2の移動動作により研磨部10は回転軸5から離れ、所定量移動して前記の開始位置まで戻る。この一連の動作により一枚の回転刃6の研磨が終了し、次の回転刃6の研磨を行うために、(5)第1移動台1は、所定量移動して次の回転刃を研磨を開始するための次の開始位置まで移動する。   The polishing portion set at a predetermined angle θ with respect to the rotary shaft 5 by the rotary table 4 is moved from a predetermined position (starting position) with respect to the rotary shaft 5 by (1) moving the second moving table 2. In the direction perpendicular to the rotation axis, it moves by a predetermined amount and moves to a position slightly closer to the rotation axis (polishing standby position) between the blade edges 6a of the rotary blades where the outer peripheral portion of the polishing plate 14 is rotating. Next, (2) the first moving table 1 is moved to move in a direction parallel to the rotation axis and in a direction approaching the blade edge 6a of the rotary blade, and the polishing plate 14 contacts the blade edge 6a of the rotary blade. The movable table 15 on which the polishing plate 14 is disposed is connected to the polishing unit base 3 via the linear guide 11 and is biased in the direction of the cutting edge 6a of the rotary blade by the compression spring 12 (elastic body). The further movement amount of the first moving table 1 after the contact appears as a corresponding amount to the moving amount of the movable table 15 on the polishing unit base 3, and the moving amount is detected by the linear gauge 13. This detected amount of movement is the amount of overlap between the rotary blade 6 and the polishing plate 14, and by stopping the moving operation of the first moving table 1 at a position (polishing position) where the detected amount of movement reaches a predetermined value. The overlap amount can be controlled to a predetermined amount. After the polishing plate 14 rotated by the motor 16 is brought into contact with the rotary blade 6 for a predetermined time, (3) the polishing plate 14 is separated from the rotary blade 6 by the moving operation of the first moving table 1 and moved by a predetermined amount for polishing. The part 10 returns to the polishing standby position. By making the overlap amount and the contact time between the polishing plate 14 and the rotary blade 6 constant, the polishing amount can be controlled to a predetermined amount. Thereafter, (4) the polishing unit 10 is moved away from the rotating shaft 5 by the moving operation of the second moving table 2, moved by a predetermined amount, and returned to the start position. By this series of operations, polishing of one rotary blade 6 is completed, and in order to polish the next rotary blade 6, (5) the first moving table 1 moves a predetermined amount to polish the next rotary blade. Move to the next starting position to start.

本発明の回転刃の研磨装置によれば、(1)、(4)の第2移動台2による移動量は所定量を設定することが可能で、これを変えることにより研磨板14の回転刃6の当る半径方向の位置を制御することができ常に同じ場所に刃物が当るのを防ぐことができる。(2)の第1移動台1による移動量は、特に所定量として設定されなくてもよく、移動により研磨板14が回転刃の刃先6aに接触からのオーバラップ量が所定量として設定される。したがって、(3)、(5)の第1移動台1の移動量が所定量であり、回転刃の回転軸への取り付け間隔に積算誤差があっても、各刃物の研磨量は正確に一定に保たれることが可能になる。   According to the rotary blade polishing apparatus of the present invention, the amount of movement by the second moving table 2 in (1) and (4) can be set to a predetermined amount, and by changing this, the rotary blade of the polishing plate 14 is changed. The radial position where 6 hits can be controlled, and the blade can always be prevented from hitting the same place. The amount of movement by the first moving table 1 in (2) may not be set as a predetermined amount, and the amount of overlap from the contact of the polishing plate 14 with the blade edge 6a of the rotary blade by movement is set as the predetermined amount. . Therefore, even if the amount of movement of the first moving table 1 in (3) and (5) is a predetermined amount, even if there is an integrated error in the mounting interval of the rotary blade to the rotary shaft, the polishing amount of each blade is accurately constant. It becomes possible to be kept at.

また、回転刃の刃先6aの研磨面の面取り角度は、回転台4の首振り角度θを変えることにより制御することができる。   Further, the chamfering angle of the polishing surface of the blade edge 6 a of the rotary blade can be controlled by changing the swing angle θ of the rotary table 4.

なお、本発明の研磨装置は一枚目の回転刃の研磨から最後の回転刃の研磨までの一連の動作を、各所定の移動量、刃物枚数等をセットすることによりコンピュータ制御により自動運転することができる。
The polishing apparatus of the present invention automatically operates a series of operations from the polishing of the first rotary blade to the final rotary blade by computer control by setting each predetermined movement amount, the number of blades, etc. be able to.

本発明の一例の研磨装置の全体の構成を示す斜視図である。1 is a perspective view showing an overall configuration of a polishing apparatus according to an example of the present invention. 本発明の一例の研磨装置の研磨部の一例の動作順序を示す説明図である。It is explanatory drawing which shows the operation | movement order of an example of the grinding | polishing part of the grinding | polishing apparatus of an example of this invention. 本発明の一例の研磨装置の研磨部の詳細構成を示す詳細図である。It is detail drawing which shows the detailed structure of the grinding | polishing part of the grinding | polishing apparatus of an example of this invention. 回転刃の構成を示す断面図である。It is sectional drawing which shows the structure of a rotary blade.

符号の説明Explanation of symbols

1 第1移動台(回転軸と平行方向に移動)
2 第2移動台(回転軸と直角方向に移動)
3 研磨部台座
4 回転台
5 回転軸
6 回転刃
6a 回転刃の刃先
7 刃物ホルダ
10 研磨部
11 直動ガイド
12 圧縮ばね(弾性体)
13 リニアーゲージ
13a リニアゲージの表示・制御部
14 研磨板
15 可動台
16 モータ
17 研磨装置
1 First moving table (moving in the direction parallel to the rotation axis)
2 Second moving table (moves in a direction perpendicular to the rotation axis)
DESCRIPTION OF SYMBOLS 3 Polishing part base 4 Rotating base 5 Rotating shaft 6 Rotating blade 6a Rotating blade edge 7 Blade holder 10 Polishing part 11 Linear motion guide 12 Compression spring (elastic body)
13 Linear Gauge 13a Linear Gauge Display / Control Unit 14 Polishing Plate 15 Movable Stand 16 Motor 17 Polishing Device

Claims (2)

回転軸と該回転軸の同軸上、軸方向に一定の間隔で保持された複数の回転刃と、前記回転刃と接触し回転刃を研磨する研磨手段と該研磨手段を駆動する駆動手段とからなる研磨部と、前記研磨部を複数の軸方向に移動可能な複数の移動台を備える移動部と、からなる回転刃の研磨装置において、
前記研磨部が開始位置から前記回転刃に接近移動、接触し前記回転刃を研磨する際に移動する第1移動台上に、該第1移動台の移動方向に移動自在で、前記回転刃に接近する方向に弾性体により付勢された可動台が配設され、
該可動台上に前記研磨部が配設されており、
前記第1移動台が移動し研磨手段が回転刃に接触後さらに該第1移動台が移動した移動量が、前記可動台の後退移動量になるように構成されており、
該後退移動量を測定する測定手段が設けられ
前記測定手段で測定された前記後退移動量が所定の数値に至った時点で前記第1移動台の移動動作を止め、前記開始位置まで戻り、
次の回転刃の開始位置に移動することを特徴とする回転刃の研磨装置。



A plurality of rotary blades that are coaxial with the rotary shaft and held at regular intervals in the axial direction, a polishing means that contacts the rotary blade and polishes the rotary blade, and a drive means that drives the polishing means A rotary blade polishing apparatus comprising: a polishing unit comprising: a moving unit including a plurality of moving bases capable of moving the polishing unit in a plurality of axial directions;
The polishing unit is moved closer to the rotary blade from the starting position, on a first movable carriage that moves when polishing the contact the rotary blade, movable in the moving direction of the first movable carriage, said rotary blade A movable base urged by an elastic body is arranged in the approaching direction,
The polishing section is disposed on the movable table,
The amount of movement of the first moving table after the first moving table moves and the polishing means contacts the rotary blade is further configured to be the amount of backward movement of the movable table,
A measuring means for measuring the amount of backward movement is provided ;
When the amount of backward movement measured by the measuring means reaches a predetermined numerical value, the moving operation of the first moving table is stopped, and the moving position returns to the start position.
An apparatus for polishing a rotary blade, characterized by moving to a starting position of the next rotary blade.



前記回転軸の回転、移動部の各移動台の動作を連続的に自動制御するとともに、複数の回転刃に対する研磨を、前記後退移動量を制御して研磨することを特徴とする請求項1に記載の回転刃の研磨装置。

The rotation of the rotating shaft and the operation of each moving table of the moving unit are continuously and automatically controlled, and polishing with respect to a plurality of rotating blades is performed by controlling the backward movement amount. The rotary blade polishing apparatus described.

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106476062A (en) * 2016-11-25 2017-03-08 浙江东方职业技术学院 Polishing fixed width cutting machine

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106586653A (en) * 2016-11-25 2017-04-26 浙江东方职业技术学院 Full-automatic online polishing fixed-width slitter

Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS63162147A (en) * 1986-12-25 1988-07-05 Taihei Mach Works Ltd Superfine finishing for cutter top edge
JPS63184701U (en) * 1987-05-21 1988-11-28
JPH02284854A (en) * 1989-04-25 1990-11-22 Taihei Mach Works Ltd Method and device for superfinishing edge point
JPH0577127A (en) * 1991-09-20 1993-03-30 Takahiro Imahashi Machining pressure control method and device therefor
JPH06182659A (en) * 1992-12-17 1994-07-05 Fuji Photo Film Co Ltd Grinding method for cutting edge
JP2000218478A (en) * 1999-02-03 2000-08-08 Taihei Mach Works Ltd Method of and device for grinding cutlery
JP2003094326A (en) * 2001-07-04 2003-04-03 Eastman Kodak Co Control device for grinding knife shaft

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS63162147A (en) * 1986-12-25 1988-07-05 Taihei Mach Works Ltd Superfine finishing for cutter top edge
JPS63184701U (en) * 1987-05-21 1988-11-28
JPH02284854A (en) * 1989-04-25 1990-11-22 Taihei Mach Works Ltd Method and device for superfinishing edge point
JPH0577127A (en) * 1991-09-20 1993-03-30 Takahiro Imahashi Machining pressure control method and device therefor
JPH06182659A (en) * 1992-12-17 1994-07-05 Fuji Photo Film Co Ltd Grinding method for cutting edge
JP2000218478A (en) * 1999-02-03 2000-08-08 Taihei Mach Works Ltd Method of and device for grinding cutlery
JP2003094326A (en) * 2001-07-04 2003-04-03 Eastman Kodak Co Control device for grinding knife shaft

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106476062A (en) * 2016-11-25 2017-03-08 浙江东方职业技术学院 Polishing fixed width cutting machine

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